Genomic signatures and insights into host niche adaptation of the entomopathogenic fungus Metarhizium humberi

<b>Additional file 1. </b>Table S1.<b> </b>Main assembly summary assessed with QUAST tool in four de novo assemblers used to reconstruct the genome of <i>Metarhizium humberi</i> ESALQ1638.Table S2. The Geographical origin and host/substrate from each <i>Metarhizium </i>strain; <b>Additional file 2</b> . R script used to generate Mummer-like plotting, also available at the GitLab repository: https://gitlab.nibio.no/simeon/iwanicki_et_al_21; <b>Additional file 3 </b>. R script used to create the phylogenetic tree, also available at the GitLab repository: https://gitlab.nibio.no/simeon/iwanicki_et_al_21; <b>Additional file 4. </b>Table S3. List of repetitive elements in the genome of <i>Metarhizium humberi</i> ESALQ1638; <b>Additional file 5. </b>Table S4. List of repetitive elements in <i>Metarhizium</i> genomes; <b>Additional file 6. </b>Table S5. InterPro categories related to transcription factors; <b>Additional file 7. </b>Table S6. InterProScan analysis and comparison of <i>Metarhizium humberi</i> ESALQ1638 with other 10 <i>Metarhizium</i> genomes and outgroups; <b>Additional file 8. </b>tRNAscan analyses <b>Additional file 9. </b>Orthologous genes in <i>Metarhizium</i> species; <b>Additional file 10. </b>InterPro category; <b>Additional file 11. </b>Overrepresented biological process GO-terms in rapidly evolving gene families in <i>Metarhizium </i>spp. <b>Additional file 12. </b>Spreadsheets of <i>Metarhizium</i> spp. predicted secretomes; <b>Additional file 13. </b><i>Metarhizium</i> spp. secondary metabolites. Table S7. Overview of polyketide synthases (PKSs).<b> </b>Table S8. Overview of nonribosomal peptide synthetases (NRPS).; <b>Additional file 14. </b>Pathogen-host interaction (PHI) dataset.